inclusion in the K-12 space, and navigation in engineering culture.Dr. Elizabeth Birr Moje c American Society for Engineering Education, 2018 “What the problem really was…”: A preliminary exploration of youth problem definition in everyday contexts.Introduction Throughout the history, one consistent theme is the interplay between technology andsociety. In persistent cyclical iteration, members of a society require new tools to meet newchallenges, having been brought to these challenges by tools in the first place (see [1]). Forexample, the more advanced cell phone technology becomes, there is a higher demand forinnovative features [2]. It stands to reason then that the technology
scienceexperiences.IntroductionSince the early 1990s, researchers have been exploring the reasons for the gender disparity inSTEM (Science, Technology, Engineering and Math) and developing interventions designed toincrease the numbers of women entering STEM fields. Experts agree that a diverse STEMworkforce leads to global competitiveness and better economic outcomes for all involved [1]. Ina 2009 study of for-profit corporations, Herring found that gender diversity in the workforcecould be connected to greater sales, more customer acquisitions and ultimately larger profits [2].Additionally, the Bureau of Labor Statistics (BLS) projects growth rates for STEM occupationsof about 13% between 2012 and 2022, which is faster than average for all occupations. Workersin STEM
year 3Background and Context• STEM Teaching Fellowship: – Teachers apply in school teams of 3-4; typical composition includes both science and mathematics teachers, mostly middle school – Three main strands: STEM Integration, Core Teaching Practices, Schoolwide STEM Strategic Plan 4Background and Context• Approach to STEM Integration Strand – Experience STEM integration as learners – Reflect and unpack as educators – Introduce tools, strategies, and templates to empower teaching fellows to engage their students in STEM Integration• Summer 1: Platform Design• Summer 2: Flint Experience
of 4-6 options they could choose.” [1] To enhance the interest ofinterdisciplinary engineering students is tasked to bring children in math and science, it is essential to introduce thelessons that cover science, technology, engineering and idea and concept at the grade school level.mathematics (STEM) to a number of elementary andmiddle schools in the surrounding area, focusing on Due to the many challenges of incorporating engineeringstudents from grades 5-8. On a weekly basis for a span of into the curriculum, it has made it difficult to allow it toapproximately six weeks, visits are made to the various begin in every grade school. Over the years, it has becomeschools to promote
boysexclusively makes no sense, and a part of the diversification of an over- all population should bedifferent populations working together. Engineering outreach programs have been around for quite some time, with a casual survey indicating that the late 1990’s saw an uptick in the number of programs, perhaps due toincreased NSF funding. In the same time period, efforts to recruit more women to engineeringwere languishing. The nationwide percentage of women has hovered in the vicinity of 18% forover 20 years [1]. Coincident with these phenomena, research emerged providing good insightinto characteristics of educational programming that appeal to girls. SciGirls published theSciGirls Seven [2] strategies for engaging girls. They advise providing
middle schools in San Antonio tocontinue some of the miniGEMS curriculum throughout the academic year.Introduction and Motivation The University of the Incarnate Word (UIW) is the fourth-largest private university in thestate of Texas. Even though the sixty percent of its students are female, the number of femalesenrolled in UIW’s Engineering Program is less than 5% and trending downwards. The sametrend follows in several other STEAM programs offered by the neighboring educationalinstitutions in Texas. There has been numerous studies in education that emphasize theimportance of teaching and learning science in middle school classes [1]. By having an earlyexposure to the fundamental aspects of science at the elementary or middle school
inquiry-based K12 science education and design learning using sensor technologies, computationally-enhanced paper-based craft kits, and augmented learning environments.Ariel J Ortiz, Lawrence Hall of ScienceMrs. Kathryn Chong Quigley, Lawrence Hall of Science Kathryn Quigley is the director of the Inventor’s Learning Lab at Lawrence Hall of Science, which is a space for visitors to explore design thinking and cutting edge technology while solving engineering challenges. In her work with the Inventor’s Lab she also oversees the Hall’s teen engineering program TechHive. c American Society for Engineering Education, 2018TechHive:ASTEMLearningLabforTeensArdiceHartry 1 ,MaiaWerner-Avidon 2